Inhibitory Signalling Switches Define The Machinery Of Synaptic Vesicle Endocytosis
Funder
National Health and Medical Research Council
Funding Amount
$387,489.00
Summary
The nerve cells in our brains are in constant communication to sustain life. Communication involves one nerve cell responding to electrical stimulation by releasing chemical messengers, from vesicles, onto the next cell. Our research focuses on the mechanism of recycling of vesicles. Targeting this mechanism is a way to gain fundamental knowledge of how to intervene medically when communication fails, or when communication needs to be dampened, in neurological diseases.
Diabetic neuropathy causes severe disability, with pain, loss of sensation and weakness. The current project will assess the utility of a new testing method, known as nerve excitability assessment, as a method of detecting early changes in nerve function in diabetic patients. If this technique proves useful in detecting early nerve damage, it will assist in the development of therapeutic and preventative treatments for neuropathy in diabetic patients.
The Ethics And Politics Of Pharmaceutical Innovation And Translation
Funder
National Health and Medical Research Council
Funding Amount
$476,728.00
Summary
I lead a research program on the ethics and politics of pharmaceutical innovation and translation: how medicines are developed, regulated, funded and taken up into practice. I aim to help policymakers to deal with conflicts among stakeholders. Over the next 4 years I will conduct a suite of research projects on topics of immediate significance to Australian policymakers; develop a new framework for pharmaceutical ethics and create a “Pharmaceutical Ethics and Politics Network.”
The Role Of The Zinc Finger Transcriptional Repressor Znf238 During Nerve Cell Maturation
Funder
National Health and Medical Research Council
Funding Amount
$394,264.00
Summary
Proper foetal brain assembly is critical for brain function, but the underlying genetic mechanisms remain poorly defined. In this study, I will investigate a family of proteins that “turn on” neural gene expression in combination with another protein that “turns off” their expression during nerve cell development. Understanding this novel on/off mechanism for controlling gene expression in newborn nerve cells will further our understanding of how the brain is assembled.